Book contents
- Frontmatter
- Contents
- Introduction
- Surveys
- 1 Ergodic Ramsey Theory
- 2 Flows on homogeneous spaces
- 3 The variational principle for Hausdorff dimension
- 4 Boundaries of invariant Markov Operators: The identification problem
- 5 Squaring and cubing the circle – Rudolph's theorem
- 6 A survey of recent K-theoretic invariants for dynamical systems
- 7 Miles of Tiles
- 8 Overlapping cylinders: the size of a dynamically defined Cantor-set
- Research Papers
8 - Overlapping cylinders: the size of a dynamically defined Cantor-set
Published online by Cambridge University Press: 30 March 2010
- Frontmatter
- Contents
- Introduction
- Surveys
- 1 Ergodic Ramsey Theory
- 2 Flows on homogeneous spaces
- 3 The variational principle for Hausdorff dimension
- 4 Boundaries of invariant Markov Operators: The identification problem
- 5 Squaring and cubing the circle – Rudolph's theorem
- 6 A survey of recent K-theoretic invariants for dynamical systems
- 7 Miles of Tiles
- 8 Overlapping cylinders: the size of a dynamically defined Cantor-set
- Research Papers
Summary
Abstract
This is a survey article on the results about the Hausdorff dimension or Lebesque measure of the attractors of some non-invertible hyperbolic maps and other fractals of overlapping construction.
Introduction
It is well known that under some regularity conditions we can use the pressure formula [MM, PeWe] to compute the Hausdorff dimension of dynamically defined Cantor-sets of the real line.
In Section 2 we examine whether or not the same is true if the cylinders of the Cantor-set under consideration intersect each other.
In Section 3 we consider attractors of some hyperbolic non-invertible maps of the plane (whose cylinders intersect each other). When we compute their Hausdorff dimension we face a similar problem to that considered in section 2. Furthermore, we see how we can trace back the computation of the Hausdorff dimension of attractors of some axiom-A diffeomorphisms of the space (generalized solenoids) to the problem of computation of the Hausdorff dimension of the attractors of non-invertible hyperbolic endomorphisms of the plane.
We denote the Hausdorff and the box dimension of a set F by dimH(F). dimB(F) respectively. (For the definition of Hausdorff and box dimension see [Falcb1].
The non-overlapping case
Here we give a brief review of the most important results when the cylinders of the dynamically defined Cantor-set are well separated; that is they are disjoint or in the self-similar case the open set condition holds.
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- Information
- Ergodic Theory and Zd Actions , pp. 259 - 272Publisher: Cambridge University PressPrint publication year: 1996
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